Models for (super)conformal higher-spin fields on curved backgrounds
Michael Ponds

TL;DR
This thesis develops models for conformal and superconformal higher-spin fields on curved backgrounds, extending gauge invariance to complex spacetimes and exploring their applications in AdS spaces and topologically massive theories.
Contribution
It provides the first complete gauge-invariant models for higher-spin conformal fields on Bach-flat backgrounds and extends these models to supersymmetric theories using superspace techniques.
Findings
Constructed gauge-invariant models for higher-spin conformal fields on Bach-flat backgrounds.
Demonstrated factorization of kinetic operators into second-order operators in AdS spaces.
Built topologically massive gauge theories using conformal higher-spin models.
Abstract
This thesis is devoted to the construction of theories describing the consistent propagation of (super)conformal higher-spin fields on curved three- and four-dimensional (super)spaces. In the first half of this thesis we systematically derive models for conformal fields of arbitrary rank on various types of curved spacetimes. On generic conformally-flat backgrounds in three and four dimensions, we obtain closed-form expressions for the actions which are manifestly gauge and Weyl invariant. Similar results are provided for generalised conformal fields, which have higher-depth gauge transformations. In three dimensions, conformally-flat spacetimes are the most general backgrounds allowing consistent propagation. In four dimensions, it is widely expected that gauge invariance can be extended to Bach-flat backgrounds, although no complete models for spin greater than two…
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Taxonomy
TopicsBlack Holes and Theoretical Physics · Cosmology and Gravitation Theories · Noncommutative and Quantum Gravity Theories
